MaxSynBio is the research network of the Max Planck Society for synthetic biology to which 20 research groups from 9 Max Planck Institutes, the Friedrich Alexander University and University Bordeaux contribute. Our goal is to understand the underlying principles of life by building cellular structures from scratch using inanimate biochemical building blocks, namely membranes, proteins and DNA. It is our hope that the insights will help us to understand the miracles of life but also foster new innovations for medicine and bioeconomy (Illustration by the courtesy of Kerstin Göpfrich).

Max Planck Research Network for Synthetic Biology

MaxSynBio is the research network of the Max Planck Society for synthetic biology to which 20 research groups from 9 Max Planck Institutes, the Friedrich Alexander University and University Bordeaux contribute. Our goal is to understand the underlying principles of life by building cellular structures from scratch using inanimate biochemical building blocks, namely membranes, proteins and DNA. It is our hope that the insights will help us to understand the miracles of life but also foster new innovations for medicine and bioeconomy (Illustration by the courtesy of Kerstin Göpfrich).
30 Nov - 02 Dec 2020 Virtual Meeting

Newsletter

Newsletter for former  MaxSynBio members and everyone who is interested in synthetic biology. Newsletters will be sent out on a sporadic basis.

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Like engineering, synthetic biology involves building new biological systems from units and modules. Scientists have already produced organisms that make drugs or biofuels, and have pieced together a synthetic organism using only genetic data. In collaboration with other fields, synthetic biology could transform biotechnology and generate useful insights into the foundations of life.

Journal Article (316)

1.
Journal Article
Raheel Ahmad, Christin Kleineberg, Vahid Nasirimarekani, Yu-Jung Su, Samira Goli Pozveh, Albert Bae, Kai Sundmacher, Eberhard Bodenschatz, Isabella Guido, Tanja Vidaković-Koch, and Azam Gholami, "Light-Powered Reactivation of Flagella and Contraction of Microtubule Networks: Toward Building an Artificial Cell," ACS Synthetic Biology 10 (6), 1490-1504 (2021).
2.
Journal Article
Yunuen Avalos-Padilla, Vasil N. Georgiev, and Rumiana Dimova, "ESCRT-III induces phase separation in model membranes prior to budding and causes invagination of the liquid-ordered phase," Biochimica et Biophysica Acta (BBA) - Biomembranes 1863, 183689 (2021).
3.
Journal Article
Yunuen Avalos-Padilla, Vasil N. Georgiev, Elena Lantero, Silvia Pujals, René Verhoef, Livia N. Borgheti-Cardoso, Lorenzo Albertazzi, Rumiana Dimova, and Xavier Fernàndez-Busquets, "The ESCRT-III machinery participates in the production of extracellular vesicles and protein export during Plasmodium falciparum infection," PLOS Pathogens 17, e1009455 (2021).
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